Non-Linear Optics TRIZ Cases

A stage with loading, working, and unloading portions enables simultaneous irradiation of multiple substrates using polarized ultraviolet light.

Uniform liquid crystal layer thickness in transmissive and reflective regions eliminates complex double-cell structures while maintaining matched phase delays.

Ion injection stopper layer reduces effective channel length in oxide TFTs, increasing aperture ratio without additional mask processes.

Integrating a fluorescent light supply part between substrates reduces light loss and improves brightness while lowering manufacturing costs.

Planarization pattern layer covers black matrix steps to prevent display defects without overcoat.

An island electrode coupled to a distinct voltage creates a transverse electric field that accelerates liquid crystal molecule transition.

Curved substrate corners with distinct radii enable compact peripheral circuit layouts, narrowing the frame size while maintaining driver placement.

Half tone mask directs UV light through reactive mesogens to form liquid crystal domains, preventing spots around the black matrix caused by outgasing.

Local quality patterns on the substrate redirect blue light to resolve the trade-off between luminance intensity and spatial uniformity.

Segments adhesive into peripheral tape and central bonding agent to prevent cover twisting under vibration.

Vertical capacitor segments overlap pixel cutouts to maintain capacitance while preserving aperture ratio and light transmission.

Placing a conductive layer on the rigid substrate surface resolves production restrictions while shielding electrostatic charges from the liquid crystal layer.

An intermediary cross-shaped organic protrusion generates fringe fields to accelerate response and widen viewing angles without reducing aperture ratio.

AC voltage applied during phase change aligns smectic liquid crystal molecules, eliminating zigzag wall defects and enhancing contrast.

A third electrode creates vertical field components that twist liquid crystal molecules without increasing driving voltage, reducing flicker and burn-in.

A defining part blocks alignment film formation in the non-display region to enable direct seal-to-substrate contact.

A microlens array substrate design featuring a light transmitting layer with lower refractive index and thermal expansion to prevent deformation.

Edge-placed polymer patterns reduce metal wire length, resolving impedance mismatching and increasing bandwidth in silicon optical modulators.

Perpendicular optical compensation films in a liquid crystal display panel reduce sideways light intensity, eliminating the need for separate dimming layers.

An LCD device generates vertical alignment via electric fields between pixel electrodes, eliminating smudges from rubbing layers.

An intermediary contrast prevention electrode resolves light leakage between source wiring and reflecting electrodes, maintaining high reflecting contrast.

Multi-layer solid state thin film electrochromic devices transform arbitrary polarization into linearly polarized infrared beams across 200 nm to 30 μm.

A light conversion layer converts specific laser light into brighter visible light, resolving low spot brightness issues on large displays.

Interlocking substrate protrusions distribute shear stress across segmented sealant portions, preventing cracking during bending.

A liquid crystal display panel uses peripheral bus line layers to connect electrodes in a lens area, enabling precise control of light refraction and diffraction.

Circulating pulses recycle through an optical resonator to boost power output while maintaining broad spectral bandwidth.

A tristate electrochromic device uses segmented anodic and cathodic layers to independently control visible and near-infrared light transmission.

A photoluminescent display panel uses stacked red and green light-conversion layers to transform blue backlight into full-spectrum color.

Blue phase liquid crystal in a transflective display panel eliminates alignment films, reducing structural complexity while maintaining dual-mode functionality.

A tapered isolator suppresses double image effects from adjacent light sources, reducing motion picture response time.

Segmented gate lines and conductive pads enable comprehensive testing of LCD array substrates.

A patterned quarter wave foil combined with a half-wave foil eliminates color shift in reflective subpixels without sacrificing transmissive brightness.

Dual-sided light emission through a curved transparent substrate enhances luminance and visibility in PDLC displays by optimizing light propagation.

Localized dot patterns on a reflecting sheet manage side-emitted light to resolve brightness non-uniformity across the display panel.

Black matrix elements adjust overlapping areas with green sub-pixels to balance brightness, eliminating Mura defects caused by spacer placement.

Two-dimensional electrode pad placement minimizes return loss and skew differences while enabling compact device downsizing.

A beam deflector uses liquid crystal layers to steer polarized light independently for left and right eyes.

A projection structure connects transparent conductive layers to a capacitance element for charge dissipation.

A liquid crystal display device uses a cover shield to fix and ground the driving PCB, incorporating a specific bracket structure.

Three subpixel electrodes receive distinct data voltages to adjust charge distribution within the liquid crystal layer.

An impact absorbing member buffers external forces against the thin substrate, preventing damage while blocking moisture and dust ingress.

Magnetic micro-capsules in the reflective layer enable passive mode switching, eliminating continuous power needs for handwriting touch modules.

A liquid crystal display panel uses a bent flexible second substrate to relocate drive electronics and reduce the non-display area.

Capillary channels in adhesive equalize pressure to prevent member sinking and enhance display reliability.

A display panel uses a waveguide layer and grating layer to control light coupling efficiency via liquid crystal refractive index modulation.

An ion storage counter electrode eliminates continuous voltage requirements, reducing power consumption while enabling large surface area mirrors.

A liquid crystal display device uses segmented heat dissipation plates to cool driver ICs and LEDs while maintaining compact terminal area dimensions.

Extending hinges laterally beyond pixel boundaries resolves the contradiction between small pixel size and high turn-on voltage while minimizing sagging.

Optical cones in the light adjusting element redirect large divergence angle white light to enhance emergent brightness beyond prism sheet limits.

Replacing capacitors with memristors in active-matrix LCDs eliminates charge leakage and line-by-line flicker while maintaining reliable voltage storage.